
Learn expert techniques for building high-performance microfluidic systems, including component selection, result repeatability, and achieving optimal outcomes in industrial fluid analysis.

Explore cutting-edge microfluidic techniques for PVT and CCE testing, extracting extensive data from minimal oil samples to enhance accuracy and efficiency in fluid analysis.

Uncover gaps in traditional fluid testing and leverage HPHT analysis to enhance decision-making, mitigate risks, and optimize asset performance through expert insights and data verification.

Explore microfluidics-based optimization for heavy oil recovery, focusing on chemical spend efficiency and increased oil extraction in Alberta and Saskatchewan fields.

Explore Yudovich Theory for rough path perturbations of Euler's equation, delving into advanced fluid dynamics concepts and mathematical techniques.

Explore Yudovich Theory for rough path perturbations of Euler's equation, delving into advanced fluid dynamics concepts and mathematical techniques for analyzing fluid flow.

Explore advanced concepts in fluid mechanics, focusing on Euler and Navier-Stokes equations. Gain insights into recent breakthroughs and cutting-edge techniques in this field of mathematical physics.

Explore Lagrangian dynamics in the Western Mediterranean Sea, analyzing ocean currents and particle trajectories for enhanced understanding of marine ecosystems and climate patterns.

Explore Lagrangian transport modeling for floating plastics using MOHID-Lagrangian, focusing on local and regional scale applications.

Explore instability-driven turbulence and its complex dynamics in physical systems through advanced theoretical and computational approaches.

Explore CRISPR-based microfluidic biosensing for molecular diagnostics. Learn about innovative point-of-care detection methods for pathogens and cancers, combining CRISPR and microfluidic technologies.

Explore CRISPR/Cas-enabled paper microfluidics for rapid pathogen detection, including SARS-CoV-2 diagnosis and wastewater surveillance. Learn about low-cost, deployable biosensors for public health applications.

Explore high-throughput qPCR microfluidics technology for plant and animal genomics, offering singleplex accuracy, massive parallelization, and efficient screening of multiple pathogens or SNPs.

Explore the glomerulus-on-a-chip platform for kidney disease modeling, drug screening, and biomarker discovery. Learn about microfluidic systems in renal research and their potential impact.

Explore 3D cell migration using microfluidic endothelium-on-a-chip models. Learn about immune cell extravasation, vascular inflammation, and tumor infiltration in advanced in vitro systems.

Explore microfluidic vortex shedding for efficient cell engineering. Learn about Hydropore's intracellular delivery platform for rapid and gentle nucleic acid and gene editing complex delivery to various cell types.

Explore fluid flow modeling using partial differential equations and learn to solve Navier-Stokes equations with NDSolve.

Explore high-throughput single cell screening and isolation techniques using picodroplets. Learn about innovative technologies advancing cellular biology research and disease mechanism understanding.

Explore best practices and strategies for exosome isolation, including centrifuge selection techniques. Learn about small extracellular vesicles and their potential in biomedical research and applications.

Explore microfluidic devices for high-throughput bioassays using picodroplets as miniaturized test tubes, revolutionizing drug discovery and preclinical development with efficient single-cell analysis techniques.

Explore Node-Pore Sensing, an innovative electronic method for cell phenotyping. Learn how this technique measures cell properties and distinguishes sublineages in human mammary epithelial cells.